Wang Liqiang, Qian Kun, Huang Yan, Jin Nana, Lai Hongyan, Zhang Ting, Li Chunhua, Zhang Chunrui, Bi Xiaoman, Wu Deng, Wang Changliang, Wu Hao, Tan Puwen, Lu Jianping, Chen Liqun, Li Kongning, Li Xia, Wang Dong
College of Bioinformatics Science and Technology, Harbin Medical University, Harbin, China.
Sci Rep. 2015 Jan 28;5:8090. doi: 10.1038/srep08090.
Synthetic biologists have developed DNA/molecular modules that perform genetic logic operations in living cells to track key moments in a cell's life or change the fate of a cell. Increasing evidence has also revealed that diverse genetic logic gates capable of generating a Boolean function play critically important roles in synthetic biology. Basic genetic logic gates have been designed to combine biological science with digital logic. SynBioLGDB (http://bioinformatics.ac.cn/synbiolgdb/) aims to provide the synthetic biology community with a useful resource for efficient browsing and visualization of genetic logic gates. The current version of SynBioLGDB documents more than 189 genetic logic gates with experimental evidence involving 80 AND gates and 16 NOR gates, etc. in three species (Human, Escherichia coli and Bacillus clausii). SynBioLGDB provides a user-friendly interface through which conveniently to query and browse detailed information about these genetic logic gates. SynBioLGDB will enable more comprehensive understanding of the connection of genetic logic gates to execute complex cellular functions in living cells.
合成生物学家已经开发出了DNA/分子模块,这些模块在活细胞中执行遗传逻辑操作,以追踪细胞生命中的关键时刻或改变细胞的命运。越来越多的证据还表明,能够生成布尔函数的各种遗传逻辑门在合成生物学中起着至关重要的作用。基本的遗传逻辑门已被设计用于将生物科学与数字逻辑相结合。SynBioLGDB(http://bioinformatics.ac.cn/synbiolgdb/)旨在为合成生物学界提供一个有用的资源,以便高效浏览和可视化遗传逻辑门。SynBioLGDB的当前版本记录了超过189个具有实验证据的遗传逻辑门,涉及三个物种(人类、大肠杆菌和克劳氏芽孢杆菌)中的80个与门和16个或非门等。SynBioLGDB提供了一个用户友好的界面,通过该界面可以方便地查询和浏览有关这些遗传逻辑门的详细信息。SynBioLGDB将有助于更全面地理解遗传逻辑门之间的联系,以便在活细胞中执行复杂的细胞功能。